TW200935932A - Centralized mobile access point acquisition - Google Patents

Abstract

Providing for centralized access management to diverse types of mobile network access points is described herein. By way of example, network components can generate a system determination list (SDL) for a user terminal (UT) that is customized to access capabilities of the UT and/or current position of the UT. The SDL can be employed by the UT to determine which network access points to camp on, handoff to, or the like. The network components can include a network database that maintains UT subscriber and related home Femto cell information, or such information can be maintained at a network operator's home location register. In some aspects, the information can be obtained over the air from the UT or from a base station serving the UT.

Description

200935932 IX. INSTRUCTIONS: [Technical Field of the Invention] The following disclosure relates generally to wireless communications, and more specifically to managing remote access to devices in a hybrid access point environment. According to 35 USC § 119 stipulates that priority* This patent application claims the following priority of the US provisional application: . The system and method for promoting the access point base station (SYSTEM AND) filed on October 9, 2007 METHOD TO FACILITATE ❿ ACQUISITION OF ACCESS POINT BASE STATIONS)" Application No. 60/978,744; System and Method for Acquisition of "Optimized Access Point Base Station" Applied on October 9, 2007 (SYSTEM) Application No. 60/978,746 of the AND METHOD TO OPTIMIZE ACQUISITION OF ACCESS POINT BASE STATIONS)";

Application filed on October 9, 2007, entitled "SYSTEM AND METHOD TO ® FACILITATE PREFERRED ROAMING LIST PROVISIONING IN ACCESS POINT BASE STATIONS"&quot; No. 60/978,747; "System and Method TO FACILITATE A CENTRALIZED FEMTO PREFERRED ROAMING LIST CONFIGURATION", which was applied for on October 9, 2007, "SYSTEM AND METHOD TO FACILITATE A CENTRALIZED FEMTO PREFERRED ROAMING LIST CONFIGURATION" Application No. 60/978, 750; each of the aforementioned application is assigned to the assignee and is hereby incorporated by reference in its entirety by reference in its entirety. The present patent application is related to the following patent application Serial No. DISTRIBUTED MOBILE ACCESS POINT ACQUISITION &quot; [Agency File Number 072357U2] of the Srinivasan Balasubramanian et al. At the same time, the application has been given to its assignee and is expressly incorporated herein by reference. [Prior Art] Wireless communication systems are widely deployed to provide various types of communication (eg, voice, data, multimedia services, etc.) to multiple users. Subscription-based services allow users to access and utilize a variety of communication content via the service provider's network. As the demand for high-rate and multimedia data services increases rapidly, there is a challenge to implement an effective and robust communication system with enhanced performance. . Traditional fixed-line communication systems (such as digital subscriber line (DSL), cable, dial-up or similar network access technology) supplied by Internet Service Providers (ISPs) are available and sometimes compete for wireless Communication platform for communication. However, in recent years, users have begun to use mobile communications instead of fixed line communications. Several advantages of mobile communication systems, such as user mobility, relatively small size of user equipment, and the ability to exchange telephone networks with the public: have made these systems very convenient and therefore Top:: The user has begun to rely more on the mobile system for the communication system to obtain the communication service, which increases the demand for increased bandwidth, service, voice quality and low price. I35136.doc 200935932 In addition to the mobile phone network currently in use, a new class of small base stations has emerged. These small base stations are low power and typically utilize fixed line communications to interface with the mobile operator's core network. In addition, such base stations can be used for personal/private use in decentralized homes, offices, apartments, private recreation facilities, etc. to provide indoor/outdoor wireless coverage of the mobile unit. Such personal base stations are commonly referred to as access point base stations, or as home Node B units (HNBs) or ultra-micro cells (Femt〇 ceu). Ultra-micro cells provide a new paradigm in mobile network connectivity that allows users to directly control mobile network access and access quality. SUMMARY OF THE INVENTION A simplified summary of one or more aspects is presented below in order to provide a basic understanding of the aspects. This summary is not an extensive overview of all aspects, and is not intended to identify any important or critical elements of all aspects and is not intended to define the scope of any or all aspects. Its purpose is to present some concepts of the invention in the <RTIgt; The present invention provides centralized and decentralized access management to distinct types of mobile network access points. In some aspects, the network component can generate a System Decision List (SDL) for the User Terminal (UT) that is customized for the access capability of the υτ and/or the current location of the υτ. The 301 can be utilized by the UT to determine which network access points to connect to, which network access points to hand over, and the like. These network components may include maintenance...users and related homes of the micro-cell information network 4 database or network operator's home location register (HLR). Alternatively, the information may be obtained from the UT or from the base station (BS) over the air (OTA) of the UT service 135136.doc 200935932. In other aspects of the invention, network access point management may be managed by an ultra-micro capable UT and/or mobile network access point to provide decentralized access point management. At the picocell, the maintained interface application facilitates communication between the femtocell and the ultra-miniature capability. At initial power up and/or acquisition, a boot process can be implemented to establish a picocell and AMD

Connection between type UTs. The boot process may be utilized by the femtocell to provide the UT with an SDL that establishes the femto cell as a priority access point within a particular geographic area (GEO) or in the home GEO. Therefore, when the ultra-micro υτ is in the home GEO, the UT is more likely to acquire, be connected to the picocell and/or to the picocell. When outside the home GE, the mobile network can wirelessly provision a custom SDL suitable for the non-native GE〇 area to the ultra-micro υτ, which establishes the non-pico cell as a higher priority access point. In some aspects of the invention, a method of facilitating remote access to a mobile network is provided. The method can include obtaining 11 specific information and determining the access capability of the UT using the UT specific information. Additionally, the method can include generating a custom SDL for selecting between disparate types of access points based on the access capabilities of the UT. According to other aspects, a &quot; device that facilitates remote access to a mobile network is disclosed. The apparatus can include a communications processor that is obtained via a data link with a base station (BS) serving the UT or with a wireless link to the υτ. And a data parser that uses the 特定τ specific information to determine the access capability of the UT. In addition, the apparatus can include an SDL module that generates a customized SDL for selection between disparate type access points 135136.doc 200935932 based on the access capability of the υτ. In one or more other aspects, an apparatus configured to facilitate remote access to a mobile network is provided. The apparatus may include means for obtaining a specific 汛 of the υτ and means for determining the accessibility of the υτ using the 特定τ specific information. Additionally, the apparatus can include means for generating a customized SDL for selection between disparate types of access points based on the access capability of the 》τ. According to other aspects, a configuration is provided to facilitate A remote access processor for the mobile network. The processor can include a first module configured to obtain a 特定τ-specific broadcast and a second module configured to determine the access capability using the 特定τ specific information. In addition, the processor can include a third module configured to generate a customized SDL for selection between disparate types of access points based on the access capabilities of the UT. In at least one additional aspect, a computer program product comprising a computer readable medium is disclosed. The computer readable medium can include a first set of code for causing a computer to obtain UT specific information and a second set of code for causing the computer to determine the access capabilities of the UT using the particular information. Moreover, the computer readable medium can include a third set of code for causing the computer to generate a customized SDL for selection between disparate types of access points based on the access capability of the computer. In accordance with additional aspects of the present invention, a method for selecting an access point to a mobile network is provided. The method can include submitting a network registration request including a UTID to a cell of the mobile network, and obtaining a customized SDL configured for the UT ID, the customized SDL establishing a preferred class I35136 based on characteristics of the UT .doc 200935932 access point. Moreover, the method can include searching for neighboring cells using the customized SDL if the cell is not a preferred cell or a non-preferred cell. In an additional aspect, a UT is provided that is configured to select an access point to a mobile network. The UT can include a communication processor that submits a network registration request including the IDτ ID to a cell of the mobile network, and a receiver that obtains a customized SDL configured for the UT ID, the customized SDL A preferred type of access point is established based on the characteristics of the υτ. In addition, the υτ may include a base station reselection module, and the base station reselection module searches for the neighboring cell by using the customized SDL if the cell is not a preferred cell or a non-preferred cell. In addition to the foregoing, an apparatus configured to select an access point to a mobile network is disclosed. The apparatus can include means for submitting a network registration request including 17 〇1 to a cell of the mobile network and means for obtaining a customized SDL configured for the UT ID, the customized SDL based The feature of the ^^ establishes a preferred type of access point. Moreover, the apparatus can include means for searching for neighboring cells using the customized SDL if the cell is not a preferred cell or a non-preferred cell. According to one or more other aspects, a processor configured to select among access points of a mobile network is disclosed. The processor can include: a first module that submits a network registration request including a UT ID to a cell of the mobile network, and a second module that obtains a customized SDL configured for the UT ID, The custom SDL establishes a preferred type of access point based on the UTi characteristics. In addition, the processor may include a third module that searches for neighboring cells in the case where the small 135136.doc • 11 - 200935932 £ is not a preferred cell or a non-better cell. &lt;In at least one additional aspect&apos; discloses a computer program product comprising a computer readable medium. The computer readable medium can include: a first set of code for causing a computer to submit a network registration request including a UT ID to a J zone of the mobile network, and a first set of programs for making the The computer obtains a custom SDL configured for the .UT ID, which is based on the characteristics of the ^ ^ 较佳 - the preferred type of access point. Furthermore, the computer readable medium can include a third set of code for enabling the computer to utilize the customization if the cell is not a preferred cell or a non-preferred cell. Hungry Search for Neighboring Communities To achieve the foregoing and related ends, the <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; Some of the illustrative aspects of the one or more aspects are described in the following description and the accompanying drawings. However, such aspects are indicative of only a few of the various <RTIgt; </ RTI> </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; [Embodiment] Various aspects are now described with reference to the drawings, wherein the same reference numerals are used to refer to the same elements throughout. In the following description, for the purposes of explanation, numerous specific details are set forth to provide a thorough understanding of one or more aspects. In other instances, well-known structures and devices are shown in block diagram form in order to facilitate describing one or more aspects. 135136.doc • 12· 200935932 In addition, various aspects of the invention are described below. It should be apparent that the teachings herein may be embodied in a variety of forms and that any specific structures and/or functions disclosed herein are merely representative. Those skilled in the art will understand from the teachings herein that the aspects disclosed herein can be implemented independently of any other aspect, and that two or more of these aspects can be combined in various ways. . For example, a device can be implemented and/or practiced using any number of aspects set forth herein. In addition, a device and/or a method of practice may be implemented using other &lt;RTI ID=0.0&gt;&gt;&gt; As an example, many of the methods, devices, and devices described herein are described in the context of implementing improved network access in an action environment that includes disparate types of access points. Those skilled in the art should be aware that similar techniques can be applied to other communication environments. The development of wireless access points for communication networks has been a Φ solution that is being supplied to enable aggregation between conventional wireless communication systems and conventional fixed line communication systems. Aggregation (also known as fixed-wireless aggregation) involves the degree of interactivity between fixed-line networks (eg, intranets, the Internet, etc.) and mobile communication networks (eg, 'cellular cellular networks') . Base station ‘ (BS) provides wireless access to the mobile communication operator’s network, such networks

Such as circuit-switched voice networks (eg, code division multiple access [CDMA] iX or CDMA IX networks), combined circuit switched and packet switched voice and data networks (eg 'CDMA Evolution Data Optimization [EV- DO] network) or all packets. And data networks (for example, Long Term Evolution [lte] networks) or similar. Examples of access point BS (referred to herein as Bs) include various transmission powers having 135136.doc 200935932 including macro cells, micro ceU 'pic 〇 cells, pico cells, and the like. /cell size Node B (NB), Base Transceiver Station (BTS) Home Node b (hnb), or Bs for short. The introduction of various types of access point BSs to traditional macro BS networks has enabled significant flexibility and consumer control over personal access to such networks. The user can often configure the terminal device to select the adjacent access point BS or the macro network BS depending on which one provides the better signal. In addition, at least in some cases, the access point BS can provide a better rate plan than the macro network, thereby enabling the user to reduce the usage fee. However, because typical macro networks are often deployed for large-scale public use, such as in major markets, indoor reception may often be weaker than outdoor reception (eg, due to absorption of radio frequency signals due to buildings, insulators, ground landscapes, etc.) ) 'This makes mobile devices less effective than fixed line computers in this environment. However, access point BS can provide significant improvements in this environment. As an example, the ultra-micro cell technology provides users with significant control over personal wireless connectivity both indoors and outdoors, often eliminating most or all of these connectivity issues. Therefore, the ultra-micro]33 can further extend the UT mobility even in the sub-optimal environment for the macro network. Despite the significant advantages of ultra-micro BS and other access point deployments, some problems have arisen due to the added complexity of coupling the ultra-micro BS to the operator's macro network. For example, access point deployments (especially in the case of subminiature cells) are typically unplanned or semi-planned, which means that these BSs are not installed under the control of the network operator. Therefore, the operator has limited capabilities to implement the ideal placement of such access points relative to other such access points or relative to the macro 135136.doc -14·200935932 BS. In addition, it is possible to strictly limit the spatial shaping of the wireless signal relative to other picocells or even the precise location of such cells. In addition, in the case of ultra-micro BS deployments that are open to consumers for purchase and installation, very dense installations of such cells can occur in high-population cities or commercial areas, resulting in wireless between adjacent subminiature and macro cells. Resource competition. In addition, the femto BS can be associated with a Closed Subscriber Group (CSG) and provide network access only to members of the CSG; in this case access is not provided to, for example, the Universal Honeycomb public. Therefore, the ultra-micro deployment in the macro network integrates the restricted access (RA) BS with the universal access (ga) BS. Many legacy UTs do not have the ability to distinguish between 3 in and 11 8 BSs, especially when both BSs use cellular frequencies, and therefore may spend significant power to search for and attempt to access RA BSs that are denied service to the UT. In addition, legacy terminal and legacy wireless network connection standards require mobile terminals to scan incoming wireless signals to identify the best signal. In the case where there are only a few neighboring BSs that the terminal can distinguish, 'this is usually The process can be implemented. However, in a dense access point deployment, $10 or hundreds of access materials can exist in the vicinity (for example, in a big city apartment building), if you have a local access point (including UT) SG) In dense deployments, it can be a significant problem to distinguish between local access points from hundreds or thousands of closely located 2 foreign access points. For example, UT may use significant power to be connected (analysis) The pilot and control channel) will deny access to the UT's network access to the foreign access point or signal that the access to the UT will be denied to the foreign access point. The UT is not in the area that includes the local access point. In case (or for example, UT does not have In the case of a reservation for the ultra-fine effect t), the problem becomes I35I36.doc 200935932 distinguishes between RA BS and Universal Access (GA) BS and ignores RA Bs. In addition, although the pico BS can be deployed separately from the macro network Frequency, but in some cases, the picocell shares one or more network frequencies with the macrocell, and therefore cannot be so easily distinguished. Therefore, there is a need to distinguish between a pico BS and a macro BS. It may be beneficial to limit the transmission of the υτ to the RA BS when it is not possible to find the local BS. In addition, the possibility of signaling or searching for the RA BS is increased and reduced to foreign super-micro in case it is expected to find the home Bs ' Signaling of the SBS can be beneficial. Aspects of the present invention can provide improvements to many of the aforementioned problems. To address some of the foregoing and similar problems, the present invention provides mobile network parameterization for use with hybrid macros and subminiatures User terminal access of the cell access network. Parameterization can be used to direct the UT to one or another type of cell, channel or the like to improve the UE will find a better cell (if applicable) or The possibility of a non-preferred cell. In some implementations, the ultra-micro ❹ SID separated from the macro network system identifier (SID) is reserved for all pico cells. Therefore, the ultra-micro cell transmitting the sub-micro SID can be The receiving terminal is distinguished from the macro BS. In addition, different network IDs or node ids (Nids) are assigned to each of the picocells of the piconet. In some cases, for example, when NID is required for reuse. The cell ID may be further assigned to each of the picocells, optionally including additional information (such as a user's physical address, a mobile station identifier (MSI) or an international MSI (IMSI) or the like). The modified NID. Therefore, by including the SID/NID/cell in the transmitted signal, the pico BS can be distinguished from the macro BS and distinguished from other ultra-micro BSs, 135136.doc •16·200935932 For example, the parameterization based on the sub-micro SID/NID and (as appropriate) cell IDs can be used to direct the femtocell capability 2ϋτ towards the adjacent picocell or towards the channel utilized by the femtocell. This parameterization identifies the home picocell as a preferred or high priority network access point. If the pico UE detects the wireless nickname transmitted by the home micro-cell, the preferred or south priority status may enable the pico UT to acquire the small area, or if it is already connected to another network area. Handed over to this community. If the AMD SUT is not currently camped on the local picocell, then υτ can periodically search for neighboring cells to find a better picocell. In some aspects of the invention, the second parameterization can be provided to a UT or macro UT that is not ultra-micro capable, thereby directing such terminals away from the femto cell or toward the macro cell or both. If the picocell shares a common channel or carrier with the macrocell, the parameterization can establish the macrocell as a preferred or high priority cell relative to the picocell. This relative priority makes the macro UT superior to the pico cell and selects the macro 1 or causes the macro to periodically search for the macro cell when Φ is connected to the pico cell. If the ultra-mini J area and the macro cell are deployed on separate channels, the parameterization can exclude the ultra-fine cell data, so that the macro υτ ignores the letter initiated by the pico cell. In at least some aspects of the present invention, the parameterization may include a system decision list (SDL' see below) for establishing a cell priority for a particular geographic area of the situation or the access/speaker area (eg, below) (eg, , preferred roaming list). Therefore, the macro UT and the ultra-miniature capability (10) can be selectively supplied depending on the υτ position (see below) to increase the possibility of acquiring a specific type of cell. 135136.doc -17· 200935932 According to other aspects, 'facing or away from The particular type of cell steering υτ can be implemented based on the geographic area (GE0) in which υτ is currently located. For example, if the UT with ultra-micro capabilities is located within the GE ’ where the home micro-cell is located, then network parameterization (e.g., SDL) that directs the ultra-micro υτ to the preferred femto cell can be provided. Additionally or alternatively, the parameterization may specify cell priority based on the current GEO. Therefore, within the home GE, parameterization can designate the femto cell as a cell with relatively higher priority than other cells, such as a macro cell. On the other hand, when the pico UT is in the non-native GEO, the pico cell can be given the lowest priority. In this way, the parameterized group will not need to be updated by the network as the UT travels between GEOs. In either case, the relative cell priority may be established based on whether the ultra-micro υτ* is expected to discover the home micro-cell based on the current GE0 in which the pico UT is located. The provision of appropriate parameterization to υτ based on UT capabilities and/or UT locations can be implemented in a variety of suitable manners. In at least one aspect, a super-miniature database (including UT-specific information) can be maintained at the mobile network. When a user tries to register on a small area, the information identifying the UT can be provided to the network. The network can then determine whether the UT is attempting to register on the macro cell or the pico cell, and in the latter case, determine whether the pico cell is the home cell (on which the UT is authorized to access the mobile network) or is the alien The cell (on which is not accessed to υτ (4)). If the UT is registered on the macro cell, the parameterization can be sent wirelessly (1) to υτ (for example, from a macro cell or an adjacent pico cell) to increase the UT's ability to search for and acquire ultra-miniature (four) possibilities (see The situation depends on the UT in the GEO. If you are registered on an alien picocell, you can provide 135136.doc •18.200935932 different parameter groups to υτ to guide the UT to search for other subminiature cells, search for other frequencies, search for macro cells, or a combination thereof. If υτ is registered on the home micro-cell, then the third parameterization can be provided to the UT, thereby increasing the probability that the UT will remain on the home micro-cell (eg, by generating a high threshold, higher than the The limit υτ is searched or handed over to other cells). According to other aspects, when υτ is registered on a cell, parameterization can be dynamically implemented based on UT information. In such aspects, the Kenting specific information can be provided to a mobile network that can generate or update a customized system decision list (SDL) for the UT (eg, a recommended roaming list [PRL] or the like) . Whether the SDL visual UT is capable of ultra-miniature capability, or depending on the GEO, depending on the situation, includes appropriate parameterization. 1; Ding specific information, current GE information and local GEO information (using it to dynamically configure SDL) can be obtained in a variety of suitable ways. In at least one aspect, the UT information and the home GEO are available to the operator list maintained by the mobile operator of the UT (eg, the home location register [HLR] or similar device). In other aspects, this information can be stored and provided with the registration request. In other aspects, the user can manually enter information into the UT (eg, by dialing a service number and including UT specific information), which can be uploaded by registration or sent to the mobile network on an uplink channel. Once the network receives the UT specific information, the dynamic sdl can be generated and sent wirelessly to the UT. Alternatively, an initiating procedure can be utilized to generate a dedicated boot SDL when the pico UT is paired with the home picocell or an initial configuration with the home picocell. The femto cell can generate a boot SDL and a subminiature SDL when it powers up and connects to the 135136.doc -19. 200935932 mobile network. The start sdl may specify the identification code of the picocell and the start channel utilized to initiate the cell 10 and/or supply sdl to the pico υτ. On the other hand, the ultra-mini sdl can specify typical systems, networks, and channels utilized in conventional ultra-micro cell-UT communications. When the pico UT is paired with the picocell, the start-up and the AMD-type SDL can be wirelessly transmitted to the ultra-micro υτ»supermicro sUT can be exchanged at the first time or from a different mobile system (for example, in the third When the 3D partner system [3GPP] system is exchanged with the 3GPp2 system), the SMD is used to acquire the femto cell. Once acquired, the femtocell can update the subminiature SDL at the pico UT as necessary. The ultra-micro υτ can then acquire the femto cell using the ultra-micro SDL, search for other cells 'delivered to other cells or hand over to the pico cell or a combination thereof. According to other aspects, an application interface can be established on the femtocell that allows the femtocell to communicate with any suitable pico UT. This communication can be established to determine if the pico UT is included in a Closed Subscriber Group (CSG) associated with the femto cell and is therefore authorized to register on the picocell. In addition, the interface can be used to temporarily access and register the guest ultra-micro υτ on the picocell. Once the connection to the pico cell is established via the application interface, the pico UT can analyze the received signal including the macro cell signal and other phase-neighbor cell signals and provide information about the surrounding network to the pico cell. The femto cell can then generate a dynamic Sdl that includes the best cell selection parameters based on the surrounding network traffic. For example, dynamic SDL can set the relative priority of the macro network and the femto cell. In addition or in addition, the dynamic SDL may establish the neighboring picocell as a preferred or non-I35136.doc -20-200935932 good cell; the latter is blacklisted by the dynamic SDL. The dynamic SDL can be provided to a pico UT that can be utilized in cell selection and handover procedures. By utilizing the surrounding network information, the dynamic cell does not need to generate an exhaustive list of sub-cells that are blacklisted. The fact is that only those sub-micro cells that are sufficiently adjacent (e.g., have a sufficiently strong pilot signal) to interfere with the supply of the picocells can be blacklisted, thereby enabling a relatively small size dynamic SDL. In addition to the above, if the surrounding network changes, the picocell can update the dynamic SDL and push the updated SDL wirelessly to the pico UT via the application interface. As a result, the ultra-micro UT can be provisioned with updated network information to optimize search and acquisition capabilities in an evolving network deployment. The techniques described herein can be used in a variety of wireless communication systems, such as code division multiple access (CDMA), time division multiple access (TDMA), frequency division multiple access (FDMA), orthogonal FDMA (OFDMA), single carrier FDMA ( SC-FDMA) and other systems. The terms &quot;system&quot; and &quot;network&quot; are often used interchangeably. A CDMA system may implement a radio technology such as Universal Land Radio Access (UTRA), CDMA2000, and the like. UTRA includes Wideband CDMA (W-CDMA) and other variants of CDMA. CDMA2000 covers the IS-2000, IS-95 and IS-856 standards. A TDMA system can implement a radio technology such as the Global System for Mobile Communications (GSM). The OFDMA system can implement radio technologies such as Evolved UTRA (E-UTRA), Ultra Mobile Broadband (UMB), IEEE 802.11 (Wi-Fi), IEEE 802_16 (WiMAX), IEEE 802.20, Flash-OFDM®, and the like. UTRA and E-UTRA are part of the Universal Mobile Telecommunications System (UMTS). Long Term Evolution (LTE) is UMTS's use of E-UTRA 135136.doc -21 - 200935932 Upcoming version 'It utilizes OFDMA on the downlink and SC-FDMA on the uplink. UTRA, E-UTRA, UMTS, LTE and GSM are described in documents from an organization named "3rd Generation Partnership Project" (3GPP). CDMA2000 and UMB are described in a program called "3rd Generation Partnership Project 2" In the documents of the organization of (3GPP2). As used in the present invention, the terms, components, "systems", ", modules" and the like are intended to refer to computer-related entities, which may be hardware, Software, executing soft body, intermediate software, microcode, and/or any combination thereof. For example, a module can be, but is not limited to, a processor executing on a processor, a processor, an object, an executable, a thread, a program, a device, and/or

Or computer. One or more modules may reside in a processing program and/or execution circuitry&apos; and a module may be localized on the electronic device and/or dispersed between two or more electronic devices. In addition, modules such as &amp; can be executed from a variety of computer readable media having various data structures stored thereon. The module may, for example, be based on signals having - or multiple data packets (eg, from a regional system, another component in a decentralized system, and/or by means of the signal across a network such as the Internet and other The data of the components of the system interaction) communicates via regional and/or remote processes. In addition, those skilled in the art will appreciate that the components or modules of the systems described herein can be reconfigured and/or supplemented by additional components/modules/systems to facilitate achieving various aspects of the description. , purpose, and ##, fear of precise configuration. Advantages, etc., to be limited to the statement in the given @ In addition, in this article Φ #人&amp; state A ... combined with the user terminal (UT) to describe. UT can also be called rabbit helmet μ 冉 as system, subscriber unit, subscriber station, action 135136.doc •22· 200935932 moving parts, mobile communication devices, mobile devices, remote stations, remote terminals, access terminals (AT ), User Agent (UA), User Device or User Equipment (UE) or the like. The subscriber station can be a cellular telephone, a cordless telephone, a Session Initiation Protocol (SIP) telephone, a Wireless Area Loop (WLL) station, a Personal Digital Assistant (PDA), a wirelessly connected handheld device, or connected to a wireless data modem or Other processing devices that facilitate similar mechanisms for wireless communication with processing devices.

In one or more exemplary embodiments, the functions described may be implemented in hardware, software, firmware, intermediate software, microcode, or any suitable combination thereof. If implemented in software, the functions may be stored as one or more instructions or code on a computer readable medium or transmitted via a computer readable medium. Computer-readable media includes computer-readable hardware (including computer storage media and hardware communication media) and includes any software, intermediate software, firmware, microcode, and/or facilitates the transfer of computer programs from another location to another location The communication medium of the hardware media ^ 'When used in this document, the computer storage medium can be any non-restricted media that can be accessed by the computer. &amp; storage media can include, employment, bribe (10), cadre Or other optical disk storage, disk storage or other magnetic storage device, smart card and flash memory device (such as 'memory card, memory stick, keydrive, etc.), or available, in an instruction or data structure Any other suitable medium that carries or stores the code and can be computer=. The hardware communication medium may include any suitable device or data link that is at least partially electrically, mechanically, and/or electromechanically transferred to another entity. 135l36.doc • 23- 200935932 Data connections are referred to as computer readable media. For example, if you use coaxial cable, fiber optic cable, twisted pair cable, digital subscriber line (DSL), or wireless technologies such as infrared, radio, and microwave, transfer programs, software, or other materials from websites, servers, or other remote sources. , coaxial electrical gauges, fiber optic cables, twisted pair, DSL, or wireless technologies such as infrared, radio, and microwave are included in the definition of media, and any suitable hardware components associated with the media are included in the hardware communication medium. In the definition. Used in this article

Disks and optical discs include compact discs (CDs), laser discs, optical discs, digital versatile discs (DVDs), flexible magnetic discs, and Blu-ray discs. Disks usually reproduce data magnetically, while discs use lasers. Reproduce data optically. Combinations of the above should also be included in the context of computer readable media. . For hardware implementations, the processing units, various illustrative logic, logic blocks &amp; modules, and circuits described in connection with the aspects disclosed herein can be implemented or implemented in the following: - or a plurality of special application products Body circuit (AS(6), digital signal processor (DSP), digital signal processing device (DspD), programmable logic device (PLD), field programmable gate array (FpGA), discrete open or transistor logic, discrete hardware Components, general purpose processors, controllers, microprocessors, microprocessors, other electronic units designed to perform the functions described herein, or combinations thereof. General purpose processors may be microprocessors, ^ alternatives The processor can be any conventional processor, controller, micro, controller or state machine. The processor can also be implemented as a combination of computing devices, a combination with a microprocessor, a plurality of microprocessors, a combination In addition to the core - or a plurality of microprocessors or any other suitable configuration, at least one processor may comprise one of the steps and/or actions described herein operable to perform the steps described herein. One or more modules of the plurality. ❹ In addition, various aspects or features described herein may be implemented as methods, devices, or articles of manufacture by using standard stylization and/or engineering techniques. The steps and/or actions of the method or algorithm described may be implemented directly in hardware, in a software module executed by a processor, or in a combination of the two. The steps and/or actions of the method or algorithm may reside on the device readable medium, machine readable medium, and/or computer readable medium as at least or in any combination or collection of code and/or instructions. The device readable medium, the readable medium, and/or the computer readable medium can be incorporated into a computer program product. As used herein, the term &quot;article&quot; is intended to cover access from any computer readable medium. In addition, the word "exemplary" is used herein to mean serving as an example, instance, or illustration. Any aspect or design described herein as "exemplary" is not necessarily to be construed as Or the design is preferred or advantageous. The use of the "exemplary" is intended to present the concept in a specific manner. When used in the scope of the application of the present application 2, the second or non-exclusive, or 'that is' Unless otherwise specified or from

Chu sees that 'otherwise' X uses A or B" intended to mean any of the natural inclusions. That is, if x uses Α; χ uses B, then in either of the previous examples, 帛 &lt; Β two Β&quot;. ^^ ^ H brothers are satisfied with the use of Α or Μ Μ 或 或 或 或 或 或 针对 针对 针对 针对 针对 针对 针对 针对 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135 135

❹ 200935932 “一” should be understood broadly to mean “one or more”. As used herein, the term “inference generally refers to the introduction or inference of a system through events and/or acquisitions”. Environment and /: The process of making the state. Inference can be used to identify a particular situation or action: or (10) such as to generate a probability distribution over the state. Inference can be probabilistic, that is, based on the consideration of data and events to calculate the state and distribution of the state of interest. Inference can also refer to techniques used to construct a more detailed event from a group of events and/or data. Regardless of whether the events are closely related in time, and regardless of whether the event and the material are from one or several events and data sources, the inference is based on the events observed by the group and/or the stored event data to arrive at new events or actions. Construction. Referring to the drawings, FIG. 1 illustrates an exemplary wireless communication system that can implement various disclosed embodiments and aspects configured to support a number of users. As shown in FIG. 1, system 100 is provided for a plurality of cells (such as macro cells 102a, 102b, 102c, 102d, l〇2e, 102f, l2g (or macro cells 102a through 102g)) Communication, where each cell is served by a respective access point (AP) 104a, 104b, 104c, l4d, 104e, 104f, l4g (or, APs 104a through 104g). Each of the cells i 〇 2a to l 〇 2g may be further divided into one or more sectors. The respective UTs 106a, 106b, 106c, 106d, 106e, 106f, 106g, 106h, 106i, 106j, 106k (or UTs 106a to 106k) are dispersed in the system. For example, depending on whether the ATs (106a to 106k) are active and whether they are in soft handover, each AT 106a to 106k may be on the forward link (FL) and/or the reverse link at a given time ( RL) communicates with one or more APs 104a through 104g. The wireless communication system 100 can provide services over a larger geographic area; for example, a macro cell to a location of 1 to 28 can cover several adjacent blocks. 2 depicts an exemplary communication system 2 for enabling the deployment of BSs (e.g., macro Bs, ultra-mini bs) within a network environment. The system includes a plurality of BSs including sub-micro BSs 210, each of which is installed in a corresponding small-scale network environment. Examples of small-scale network environments may include user residences, businesses, indoor/outdoor facilities, and the like. The ultra-mini 88 21〇 can be configured to serve the associated UT 22〇 (eg, included in the CSG associated with the pico BS 210), or as the case may be outside or a guest 〇 22 22〇 (eg, not for the ultra-miniature Configured by the CSG of BS 210). Each of the pico BSs 21 is further coupled to a DSL router (not shown) or an electrical data modem, a broadband connection over a power line, a satellite internet connection, or a similar broadband internet connection (not shown). Internet 240 and mobile operator core network 25〇. To implement the wireless service via the pico BS 210, the owner of the pico 210 subscribes to an action service (e.g., 3G mobile service) that is provisioned via the mobile operator core network. In turn, the UT 220 can operate in a macrocelled cellular environment and/or a residential small scale network environment using the various techniques described herein. Thus, at least in some of the disclosed aspects, the ultra-miniature Bs 21〇 &quot;T is compatible with any suitable UT 220 back lake. In addition, the 'UT 220 can be serviced by a predetermined number of ultra-micro bs 21s', in particular in addition to the jumbo cell mobile network 250, especially by the ultra-micro BS 210 resident in the respective user's residence, business district or indoor/outdoor facility 230. Service, and can not be in a soft handover state with the macro network 250. It should be understood that although the aspects described herein utilize the 3GPP terminology, it should be understood that the aspects can also be applied to 3Gpp technology 135136.doc -27- 200935932 (version 99 [Rel99], Rel5, Rel6, Rel7) and 3GPP2 technology. (1 xRTT, 1 xEV-DO RelO, RevA, RevB) and other known and related technologies. FIG. 3 illustrates a block diagram of an example system 300 for providing centralized access point management in a mobile communication environment. Suitable for the mobile environment can include GA macro collection 'points (for example, in some cases set to GA's macro cell, micro-small area, micro-cell or even ultra-micro cell), and RA ultra-mini memory with limited CSG Take a point. Because system 300 is centralized, access point management can be provided to all UTs served by multiple BSs or by the network of the BS. As an illustrative example, if system 300 is located at a base station controller (BSC) that manages a number of BSs for a base station subsystem (BSS), then access point management may be provided by system 300 for each BS of the BSS. Similarly, if the system 300 is located at a Mobile Switching Center (MSC) or a Serving GPRS Support Node (SGSN) of a system utilizing a General Packet Radio System (GPRS), access can be provided to all BSs served by the MSC and/or SGSN. management. Alternatively or in addition, system 300 can be located within the operator's core network, enabling access point management to be managed centrally at the core network for all BSs coupled to the core network. In some cases, system 300 can be deployed in a centralized network of ultra-micro cells, on an internet server, or within the core network of an operator. (eg, the Internet gateway of the network) ) to facilitate access management for each of the femto cells. System 300 includes a provisioning module 302 that facilitates selection of access points to a UT coupled to a mobile network. The provisioning module 302 can generate a system determination list 135136.doc • 28· 200935932 (SDL) that can be utilized by the UT to select among a plurality of available access points to the mobile network (see, for example, Figure 8 below). Additionally, the provisioning module 302 can be customized with respect to the UT based at least on the ultra-micro capabilities of the UT. Thus, for example, a first type of SDL can be customized for a UT without sub-micro capabilities, and a second type of SDL can be customized for a sub-capacity UT. In addition, the second type can be individually processed for each sub-micro capability UT to, for example, identify sub-micro cells that are permitted to access the network of the ultra-micro UT. To customize the SDL, the provisioning module 302 can include an SDL module 308 that obtains UE-specific and picocell specific data from the UE-Subminiature Profiler 306. The communications processor 304 can be coupled to various external sources for information. For example, the provisioning module 302 can utilize the communication processor 304 to couple with a particular femtocell (eg, via an internet gateway that communicates with the femtocell via the internet) to obtain picocell material or The data of the UT coupled to the femto cell (eg, MSI, IMSI, electronic serial number [ESN] or possibly unique ID of the UT). Additionally or alternatively, communication processor 304 can utilize a macro network (not depicted) coupled to the pico UT to obtain this information. In other aspects, the communications processor can be coupled to a subminiature library (e.g., see Figure 4 below) or to the operator's home location register (HLR), where the register stores the pico UT data. The information obtained by the communication processor 304 is provided to the UE-Subminiature Profiler 306 for retrieval of relevant information. This information may include the SID of the serving BS (e.g., the subminiature SID reserved for the femto cell, the macro SID), and a subset of the NID and/or the cell ID of the cell associated with the SID. In addition, the information captured may include the ID information of the UT attempting to register on the mobile network. The SDL module 308 can generate a UT for coupling with the macro BS, a UT that is not capable of 135136.doc -29-200935932 (at least partially determined from UT data), or a UT that is not in the home GEO. Preset SDL (for example, PRL). The preset SDL may contain a list of macro SID/NIDs (or other node IDs, such as subnet IDs in an EV-DO system) to which the UT can connect. In some aspects, as discussed in more detail below, the SDL can establish one or more SID/NIDs as preferred IDs. For custom SDL, SDL module 308 can provide SDL with information about a particular UT or cell serving the UT. Thus, for example, if the particular UT is a sub-micro capable UT, the SID reserved for the pico BS can be included in the custom SDL. By utilizing this custom SDL, the UT can identify signals including reserved SIDs as originated from the picocell. Further, the customized SDL can include a subset of NIDs and/or cell IDs associated with the pico SIDs. Thus, the UT can ignore signals that do not include a subset of NIDs/Cell IDs, or simply analyze signals that include a subset of NIDs/Cell IDs in conjunction with signals that include different SIDs (e.g., macro SIDs). In some aspects, the subset of NID/cell IDs can include one or more NID/cell IDs of the home micro-cell associated with the registered pico UT. In accordance with some aspects of the present invention, the SDL module 308 can establish one or more system and/or network IDs as preferred, and establish one or more other systems and/or network IDs as non-preferred. There is no particular preference for a system and/or network id or a combination thereof. Thus, the UT can select among one or more signals based on signal strength and/or quality, and SID/NID preferred status. In the case of providing the UT with a custom SDL with a preferred SID/NID, the UT may continue to search for a preferred SID/NID, even if the cell is currently coupled to a non-preferred cell or has a non-preferred state. In addition, if the UT obtains a better 135136.doc -30·200935932 SID/NID, a high threshold can be established above which the UT will search for other BSs. Thus, as a specific example, the UT may ignore neighboring cells when coupled to a preferred cell unless the signal strength of the preferred cell is reduced below a relatively low threshold, or a signal between the preferred cell and the neighboring cell The difference in intensity rises above a relatively high threshold, which favors neighboring cells. According to other aspects, the SDL can be configured according to one or more GEOs. Therefore, the available SID/NID in the GEO in which the cell that obtained the registration request is resident may be included in the SDL. In some aspects, the SDL may further include a neighboring GEO and an associated SID/NID in the event that the UT travels outside of the current GE0. For SDL customized for the pico UT, if the current GE0 is the home GE0 associated with the pico UT, the current GE0 may contain the macro BS SID/NID and one or more subminiature SID/NIDs. In addition, the ultra-small SID/NID can be given a better state, thereby guiding the UT to bias the picocell relative to other types of network access points as discussed above. If the current GEO is not a native GEO, the SDL can be configured to not contain the pico SID/NID, allowing the pico UT to ignore unwanted signaling to the alien picocell. Therefore, the ultra-micro cell SID/NID can be listed as preferred and the home micro-cell can not be found when it is expected to find the home micro-cell (for example, in the home GEO or multiple home GEO) ( For example, in the case of the home of GEO, the ultra-small 'zone SID/NID is not included and the custom SDL is utilized to save additional signaling to the pico UT. 4 illustrates a block diagram of an example system 400 that provides access point management for UTs 404A, 404B having different access capabilities. System 400 can include 135136.doc -31 - 200935932 with a supply module 4〇2 for generating SD1 for the UT based on individual capabilities. The provisioning module 402 can receive a registration request from an access point (such as a macro access point 4.06A or a pico access point 406B) at the communication processor 408, including registration information for the UT 404A, 404B (eg, MSI, IMSI, esn, etc.). This ID information can be used to obtain user information at various network data stores (416). For example, if the registration UT is ultra-micro υτ 4〇4B, the UE-cell profile parser 412 can access the network sub-miniature library 414. The subminiature repository 414 can store a user profile 416 indicating that the pico UT (404A) grants users access to a particular picocell (4〇6B), and the hypercapacity cell (406B) is a subminiature for a particular user.本τ (404Α) of the local community. In addition, database 414 can indicate the associated GEO for each picocell (406A) and the home GEO for each pico UT (404A). Thus, using the ID of the registered pico UT 404A, the provisioning module 402 can identify the femtocell (406B) associated with the ID and the GEO of such cells. If the pico UT 404A is in the home GEO, the custom SDL can be generated by the SDL module 422 to identify the home microcell and establish the cell as a better cell. Otherwise, the SDL may include a macro cell SID/NID to direct the pico UT to search and/or remain coupled to the macro cell. Instead of or in addition to the foregoing, the provisioning module 402 can include a data interface 418 that can be coupled to the Internet and/or the mobile core network 420. Thus, the data interface 41 8 can communicate with the femto cell 406B using an internet gateway (not depicted) utilized by the cell 406B. The data interface can be used to query the picocell 406B and obtain the ID information of the cell and/or the UT (404B) coupled to the femtocell 406B. In addition, the data interface can communicate with the macro core 135136.doc -32· 200935932 heart network 420 to obtain user information. In some aspects, this information may include user ID information. The user (1) information can be utilized to establish a particular GE port for the femto cell 406B. As an example, a physical address (e.g., a mailing address), a postal code, and/or the like can be utilized to establish a pico GE. Thus, the pico GEO can be a relatively small area around the femto cell 406B, thereby limiting the number of other access points (4〇6A) included in the GEO of the femto cell. If the registered UT is a pico UT (404A), and the local GEO of the super micro SUT (4〇4A) is the same as the GEO of the ultra micro cell 406Β, the ultra-mini GEO and the ultra-micro cell 4〇6BiSID/NlD/cell can be SDL mode. Group 422 is included in the custom SDL and this custom sdl is provided to this UT. Otherwise, an SDL containing a macro BS SID/NID/cell ID may be generated and provided to the UT&apos; so that the macrocell signal is still ignored and the macro signal is instead searched. FIG. 5 depicts a block diagram of an example system 5A that provides distributed access point management for the UT 504. As depicted, system 500 can include one or more subminiature cells 502 and one or more UTs including subminiature UTs 504. The femto cell 502 can include an interface application 506 configured to provide wireless data exchange between the ultra-micro υτ 504 and the home micro-cell 502 associated with the UT 504. The interface application 506 can be utilized to generate a custom SDL dedicated to the femto UT 504 from a similar manner as described above but from the ultra-micro cell 502 rather than the centralized network location. In addition, the interface application 506 can utilize the channels typically utilized by the femto cell 502 for wireless communication, or can utilize a special provisioning or launch channel for providing customized SDL (e.g., see Figure 6 below). The interface application 506 can be utilized by the home ultra-micro cell 502 to perform a self-configuration procedure with the macro core network 518 via the connection to the 135136.doc-33-200935932 internet. Thus, for example, the femtocell 502 can obtain information about neighboring cells of the femto cell 5〇2 (including macro cells and other sub-micro cells X not depicted). In addition, the femtocell 502 can obtain information indicating whether these other subminiature cells are the home microcells of the pico UT 504 or provide limited access or no access to the pico UT 504. The interface application 506 can include an SDL provisioning module 512 that can generate a customized SDL for the ultra-micro υτ 5〇4. If the ultra-micro υτ 504 is included in the CSG associated with the pico Φ cell 502, the SDL may be provisioned to designate the femto cell 502 and any neighboring home micro-cells as preferred cells, and designate the neighboring macro cells as Lower priority, and the adjacent alien picocell is designated as a non-preferred cell. If the ultra-miniature ^^5〇4 is not included in the CSG, the femto cell 502 can check the guest user group (GSG) to determine if the ultra-miniature υτ 504 should be accessed by the guest. The object access may include full access (same as the home microcell) or limited access, limited access limit bandwidth, ^ action resources, and/or the amount of time that the guest UT can utilize the femto cell 5〇2. For the guest SDL, the femtocell 5〇2 can be established as a better cell, and the neighboring cell (macro or pico) can be established as a lower priority cell. Depending on the situation, the guest SDL may not provide special preferences for the femto cell 5〇2 and neighboring cells, thereby allowing the guest UT to acquire and access neighboring cells based on signal strength. In some aspects of the invention, the ultra-miniature υτ 5〇4 Interface application 506 can be utilized to provide SDL to femto cell 5〇2. Thus, the preset SDL of 135136.doc -34-200935932 can be forwarded to the interface application 506, for example, via the Wireless Provisioning Function (OTAF) 520 and the Macro BS 522 from the Mobile Core Network 5丨8. The SDL provisioning module 512 can then modify the preset SDL to generate a customized SDL, as discussed above, the custom SDL includes the SID/NID/Cell ID of the femto cell 5〇2 of the preferred cell and the neighboring cell is designated It is a non-preferred cell. Once the custom SDL is generated and provided to the pico υ 5 〇 4, the pico UT 504 and the pico cell 5 〇 2 can utilize conventional wireless communication (eg, using a typical operating channel of the femto cell 502, such as with, for example, Start or supply channel comparison). Periodically, the femto cell 5〇2 and the pico UT 504 can participate in the interface application 506 (using a special start frequency as appropriate) to update the SDL provision at the SDL provisioning module 512. For example, via the interface application 506 The periodic use adds a change in the neighboring cell/cell ID to the SDL utilized by the pico UT 504. Thus, the system 5 can utilize the interface application 5〇6 and the SDL provisioning module 512 to generate and update the customized SDL to reflect the changing network conditions. The custom SDL can reflect the dominant signal conditions in the vicinity of the femto cell 502 in accordance with a particular aspect of the present invention. In such aspects, the ultra-miniature 504 can be coupled to the picocell 502 via interface application 506 for SDL supply. During this provisioning period, the pico UT 504 can utilize the signal analysis module 508 to monitor and analyze the wireless signals of the adjacent macro and subminiature Bs (522). Signal strength, signal quality, and the like can be obtained using signal analysis module 508. In addition, the signal analysis module 508 can identify the SID/NID/cell id information transmitted with each signal to identify the BS (522) that transmitted the signal. This information can be provided to the picocell 502 via the reporting module 510. In this case, the SDL provisioning module 512 can identify neighboring cells (522) that cause potential strong 135l36.doc -35 - 200935932 disturbances, or have strong enough signals to cause the ultra-miniature 504 to attempt to acquire or exchange to such signals. . If the ultra-micro υτ 5〇4 is included in the CSG or GSG of the picocell 502, the Bellow SDL provisioning module 512 can blacklist the neighboring alien microcells to prevent the ultra-micro υτ 5 from trying to acquire such cells. . During the SDL update provision as discussed above, the new alien picocell determined by signal analysis module 508 may also be blacklisted as necessary. Thus, a custom SDL can be provisioned to blacklist only neighboring cells that may interfere with the pico UT 504 or have the pico UT 504 handed over to such cells, thereby sharing the common GE with the femto cell 5〇2. All of the picocells are counted in the blacklist to provide a relatively small blacklist. 6 depicts a block diagram of an example system 600 that facilitates initial startup provisioning of a terminal device coupled to a mobile network. System 6A includes a provisioning module 602 coupled to the pico UT 604 via a BS_UT interface, which may include a wireless transceiver coupled to an ultramicro plastic cell device (not depicted) of the supply module and the transceiver thereof Utilize the wireless channel. The custom SDL for the pico UT 604 can be generated using the start-up supply as described herein, and a custom SDL is provided for selection and delivery to the network Bs identified in the SDL. The provisioning module 602 includes an activation configuration module 6〇6 that establishes a submicrocell coupled to the supply module 〇2 and a startup supply to the pico UT 604. The boot configuration module 606 can obtain sub-micro specific information from a data processor 61 that can communicate with the mobile operator's network (e.g., via an internet connection coupled to the picocell). The ultra-micro information may include SIDs reserved for use by the picocell. In addition, the ultra-miniature information may be utilized by the Subminiature 135136.doc 06-200935932 UT 604 for initial configuration and cell signaling/acquisition and activation of the traffic resources and cellular information. The activation information may include a SID utilized at startup to identify the SID of the femto cell and activating the NID, and a boot channel utilized to communicate with the femtocell for initiating provisioning. Startup capital 5fl &lt;SID, NIDb00tstrap, channel b. . (8) can be included in the ultra-micro cell coupled to the provisioning module 602 (if communication has been established between the cell and the ultra-micro υ 〇 〇 6 〇 4) or via the macro network supply to the ultra-mini υ 〇 〇 〇 〇 〇 Customized in SDL. Once the femto UT 604 obtains the customized UT 604 containing the activation information listed above, the start or pairing routine with the femto cell can be performed using the initiating nid and the initiating channel. In some aspects, the initiation procedure is performed by a picocell that radiates at a very low power (eg, one watt fraction), wherein the pico UT 004 is located close to the picocell (eg, within i meters) . In a particular aspect, the enable channel can be utilized to bypass the CSG utilized by the femto cell, since the sub-micro UT 604 can be operated by the owner of the femto cell since it can be assumed to be within this proximity. Thus, in such an aspect, the pico UT 604 can initially be included in the CSG of the picocell by utilizing the booting operation provided by the system 6A. After initial pairing with the femto cell, the provisioning module 〇2 can generate a customized SDL for mobile communication with the femto cell. The initiating SDL may be provided by the pico UT 604 to the femto cell during initial acquisition, which may forward this SDL to the data processor 610. The subminiature SDL configuration module 608 can modify the boot SDL to include a subminiature specific sid/nid and a channel for cellular communication with the picocell. This information can be expressed as 135136.doc •37· 200935932 &lt;SIDFemt. , NIDFeint. , channel Femt. 〉' thus indicates the operation of the ultra-miniature related SID/NID/channel. The subsequent interaction between the pico UT 604 and the picocell can be performed using conventional ultra-micro transmission power/distance using ultra-micro-related information, where the UT 604 is checked using the CSG of the picocell. In some aspects, analysis of neighboring cells (e.g., as described above at Figure 5) can occur during the initial provisioning period described above. Therefore, 'ultra-micro information can also be included in the ultra-micro cell with a threshold or a large signal strength/quality blacklist, which can cause the UT 604 to acquire or hand over to the configured sub-micro cell. Adjacent to exotic micro-cells. As described, the system 600 can provide an efficient mechanism for decentralized access point management using the initial ultra-micro device pairing routine. Figure 7 illustrates a block diagram of an integrated ultra-mini-macro-running environment 700 in accordance with an example of aspects of the present invention. The mobile environment 700 includes at least one macro BS 702 that provides Ga wireless service to the UT 704. Thus, UT 704 can be communicatively coupled to macro BS 702 under favorable macro radio conditions or if the preferred BS (706A, 706B) is not within a sufficient range. In addition, the environment 700 includes a plurality of ge 708 VIII, 7088, 708 (:, 7080 (or 708 to 7080) within the coverage of the macro BS 702. These 〇 0 packages. Contains at least two native GEO 708A 708D, wherein the UT 704 is associated with at least one of the home micro-cells 706A, 706B. For example, the GEO 708A can include a residential area in which the user has a home micro-cell 706A established at the home of the user. The 708D may comprise a commercial or industrial area in which the user has a second home micro-cell 706B established at an office building or other business district. Other GEO 708B, 708C are foreign 135136.doc -38- 200935932 GEO 'where the user does not have a home Ultra-micro cells (706A, 706B). It should be appreciated that the GEO 708A through 708D depicted by environment 700 can be defined using various standards. In one example, GEO 708A through 708D can utilize network regional information (such as a macro network ( 702) Location Area ID (LAI) or Routing Area ID (RAI) is defined. In other examples, GEO 708 VIII to 7080 may utilize political/legal geographic boundaries (such as zone boundaries, county boundaries, state boundaries, or the like) In other examples, GEOs 708A through 708D may be defined based on user profiles associated with the home micro-cells 706A, 706B. Thus, for example, mailing locations associated with individual home micro-cells 〇6A, 706D may be utilized. Address, postal area code or other location/area identifier (e.g., global positioning system) to define at least individual home GEO 708A, 708D. In some aspects, a combination of the foregoing examples may be utilized to define GE 〇 708A, 708D. The UT 704 travels between GEOs, which can report to the serving BS an identification code of the GEO in which the UT 704 is currently located. The serving BS can forward the GEO to the mobile network to update the current location of the UT 704. Additionally, as described herein, The current GEO can be utilized to generate a custom SDL for the UT 704 (eg, preferred for the BS to view the current type of GEO (the local or foreign) is preferred over other BSs). In a centralized access point management architecture, The network may utilize a macro BS 702 or a femto cell (706A, 706D) coupled to the UT 704 to generate and provide a customized SDL to UT 704. As is known in the art, the network may utilize, for example, The location information pages the UT 704 and delivers the material. In the decentralized access point management architecture, the 'service BS (702, 706A, 706B) optionally generates and provides a customized SDL to UT 704 when the provisioning is initiated. In this case 135136. Doc -39- 200935932 Next 'When the UT 704 travels to the new GEO and first attempts to commit the S main volume within the new GEO', the serving BS (702, 706A, 706B) can update the customized SDL as necessary. Thus, the use of SDL for access point management adapts to UT mobility and adapts to adaptive mechanisms of dynamic networks (e.g., including new macros and/or femto BS deployments). Figure 8 illustrates a block diagram of a custom SDL 806 in accordance with an example of aspects of the present invention. The SDL 806 may optionally be provided to the UT 804 by the access point 802 during wireless communication via the UT 8〇4 startup or pairing routine. SDL 806 may be referenced by UT 804 to identify available access points within a particular GEO in which υτ 804 is currently located. This current GEO can be broadcast by access point 802, or based on location measurements (e.g., GPS). As depicted, SDL 806 contains three different GEOs, GEO 1, GEO 2, and GEO 3. GEO 1 is associated with the UT 804's home micro-cell (HFC) and one or more macro cells and one or more alien sub-micro cells (AFCs). Since the home micro-cell is included in GEO 1, this GEO is indicated as the GEO. In addition, each access point is associated with a particular cell ID (e.g., SID/NID/cell ID), and with that particular cell ID, UT 804 can identify a particular access point. Each access point is also given a priority. Give high priority to the local community in GEO 1, give the medium access priority to the macro access point, and blacklist the alien micro-cells in GEO 1 (or give low priority depending on the situation). Therefore, the UT 804 will acquire the cell as long as it identifies the signal of the home microcell and it rises above a relatively low threshold. Otherwise, select the macro cell. If an alien picocell is identified, the signal associated with the cell can be ignored. 135136.doc -40· 200935932 ❹ GEO 2 and GEO 3 are foreign GE0s, which do not include the local micro-cells associated with υτ 8〇4. In GEO 2, which contains at least an alien picocell, all femtocells are given a non-preferred right and the macrocell is given high priority. Therefore, as long as the signal of the macro cell is above a relatively low threshold, the UT 804 will select this cell. If the macro cell cannot be distinguished, the alien pico cell can be accessed as needed to initiate signaling with the mobile network (if the alien pico cell allows this signaling in some aspects, the UT 804 can attempt to register as an alien. The object I on the picocell is given a special hunger giving a higher priority (e.g., medium or better state) to the alien picocell. For GEO 3, which only includes the macrocell, the UT 804 can be connected to the macrocell. It should be understood that the UT 804 can periodically search for a better cell whenever the connection is made to a non-preferred cell (or if the better J, the number j5 of the zone is lowered below a relatively low threshold). Identifying and obtaining such cells. Therefore, if the UT 804 is connected to the macro cell but travels from GE 〇 2 to GEO 1, the home micro-cell can be finally identified. In addition to the foregoing, the SDL 806 can indicate various access points. Channels utilized. In a multi-carrier environment where multiple channels are available, the UT 804 can search within such channels and/or between such channels to identify cells, and periodically when connected to a medium or non-better cell. Search for better communities As a matter of course, the muscle_visual UT 804 is currently located in a particular GE, and I provides a selective decision of the network access point to facilitate identification of better cells than other cells. Therefore, there is a better cell. Increased likelihood, resulting in more efficient overall action communication. Figure 9 depicts a block diagram of an example system _ according to aspects of the present invention, the 135136.doc 41 200935932 system 900 includes a BS 902 and one or more UTs 904 (eg, a mobile device). As described herein, BS 902 can be configured to provide selective access to disparate types of mobile network access points. For configuration to identify and distinguish between these types of storage Taking the UT 904, the custom SDL containing the identification information of the various types of access points and the priority of the access points can be provided by the BS 902. The UT 904 is not configured to identify and/or distinguish between different types of storage. In the case of a dot, an SDL can be provided that contains information identifying the appropriate macro access point so that the UT 904 can ignore the non-clustered access point. The BS 902 (eg, access point...) can include Or multiple receiving antennas 906 Or a plurality of UT 904 receivers 910 that receive signals and wireless (OTTA) messages, and transmit encoded/modulated wireless signals and messages provided by modulator 928 to one or more UTs 904 via transmission antenna 908 Transmitter 930. Receiver 910 can receive information from receive antenna 906 and can further include a signal recipient (not shown) that receives uplink data transmitted by UT 904. Additionally, receiver 910 is operatively coupled A demodulation transformer 912 that modulates the received information is associated. The demodulated symbol is analyzed by processor 914. Processor 914 is coupled to memory 916 that stores information about the function provided by bs 902. In one example, the stored information may include rules for obtaining various access point IDs and sub-miniature specific information and generating hyper-specific SDLs to υτ 904. Additionally, the stored information can include a set of parameters configured to establish a better and non-better BS (902). In addition, BS 902 can include a provisioning module 918 that utilizes the capabilities of UT (904) and based on such capabilities to throttle the SDL of UT (904). For example, if the UT is a device with ultra-micro capabilities, the provisioning module 918 can utilize the signaling interface 135136.doc -42 - 200935932 920 to be ultra-miniature specific to the mobile core network and/or the network maintenance Database communication. The signaling interface can obtain user information associated with the ultra-micro capability υτ (9〇4), and the home micro-cell associated with this υτ can be further obtained from the ultra-micro database. Depending on the situation, in the case where BS 9〇2 is a picocell BS, user information and subminiature capabilities of UT 904 included in CSG 924 can be stored in memory 916 for internal use by bs 902. When the user and capability information is obtained, a customized SDL for the pico UT 904 can be generated, thereby establishing the home microcell (902) as a better cell, and depending on the situation, the macro cell and/or the foreign cell are respectively established. It is a medium or low priority cell and a blacklisted cell. In some aspects, Bs 902 can include a data interface 922 to couple to the Internet for communicating with other pico BSs or for coupling to a mobile core network (eg, if 902 is a picocell BS) ). In accordance with one or more other aspects, BS 902 can include a boot module 926 for initial υτ supply. As described herein, the boot module 926 can utilize the boot node ID and/or the boot channel to communicate with the pico υτ for initial provisioning. The boot module 926 can be utilized during initial provisioning to establish the UT (9〇4) as part of the CSG 924. In this case, the startup module 926 can further provide lower power transfer parameters for the processor 914 to limit the initiation communication to a relatively short range (eg, less than 1 meter) to mitigate during the startup procedure. The possibility of authorizing the UT to be coupled to the BS 902. In addition, the boot module 926 can obtain adjacent wireless conditions from the appropriate UT (904) during this initial provisioning to enable the provisioning module 918 to customize the sdl based on the neighboring network signals. Thus, for example, neighboring alien picocells can be blacklisted to prevent the UT (904) included in the CSG from performing the invalid handover to the alien picocell, and the result is transferred to the 135I36.doc-43-200935932 In contrast to other cells, υτ (9〇4) may be more likely to remain coupled to BS 902. 10 illustrates a block diagram of an example system 1A including a UT (eg, mobile device) 1002 that can be configured to interface with BS 1〇〇4 υτ 1〇〇2 can be configured to One or more of the wireless networks such as BS i 〇〇 4 (eg, access points) are wirelessly coupled. Thus, for example, as is known in the art, υτ 1002 can receive wireless signals from Bs 1〇〇4 on the FL channel and respond to wireless signals and messages on the rl channel. In addition, the UT 1002 can obtain system decision information from the BS 1004 for selective selection between access points to the wireless network. In some aspects, υτ 1〇〇2 may provide ^^^ and/or user-specific resources to facilitate the creation of custom SDLs based on the capabilities of UT 1〇〇2. As described herein, a custom SDL can, for example, establish one or more types of access points as preferred or non-preferred access points to facilitate this selective network access. UT 1002 includes receiving signals for at least one day. Lines 1〇〇6 (eg, a transmission receiver including an input interface or a group of such receivers) and a receiver 1008 that performs typical actions (eg, filtering, amplification, down-conversion, etc.) on the received signal » according to In at least some aspects, the processor 110 can selectively analyze portions of the signals received from the demodulation transformer 1010 and obtain synchronization and/or control information about the selected base port (1004) or a type of base station. Typically, the antenna 1006 and the transmitter ι〇3〇 (collectively referred to as transceivers) that wirelessly transmit the modulated symbols provided by the modulator 1028 can be configured to facilitate wireless data exchange with the base station 1004. The antenna 1006 and the receiver 1〇〇8 can also be coupled to the demodulator 1〇1〇, the solution 135136.doc •44 - 200935932 The modulator 1010 can demodulate the received symbol and provide it to the processing. The device 1012 is for evaluation. It should be appreciated that the processor 1012 can control and/or reference one or more components of the UT 1002 (10〇6, 1008, 1010, 1〇14, 1016, 1018, 1020, 1022, 1024, 1026, 1028). In addition, processor 1012 can execute one or more modules, applications, engines, or the like (1016, 1018, 1022, 1024, 1026) that contain information or control regarding the functionality of rUT 1002. For example, such functions may include scanning signal strength and/or quality statistics of received wireless signals, using custom SDLs to selectively access or hand over to a particular BS (1〇〇4) or several types of BSs. Or a similar operation as described herein. The UT 1002 can additionally include a memory 1014 that is operatively coupled to the processor 1〇12. The memory 1〇14 can store data to be transmitted, to be received, etc., and an instruction suitable for wireless communication with the remote device (1004). Further, the 'memory 1014 can store the above by the processor. Modules, applications, engines, etc. (1016, 1018, 1022, 1024, 1026) executed by 1〇12. In addition to the above, the processor 1〇12 and the memory 1014 can be coupled to the reselection module 1016, and the reselection module 1016 can perform base station reselection to obtain a network access point (1004) or identify and exchange. To the preferred access point (丨〇〇4). The reselection module HH6 obtains this direction from the SDL obtained from the BS 1004 and stored in the memory 1〇14. The second selection may include scanning the cells identified at the antenna and the receiver 1008 to identify the cells of the signals and comparing the cell IDs to the customized SDL. To facilitate the generation of the throttled SDL, the processor 1〇12 can provide information identifying the υτ 1〇〇2 or from the user profile stored in the memory 1014 and associated with the 135136.doc -45- 200935932 household. Information. The user profile can be utilized to establish the UT 1002 native GEO (eg, based on user address, postal code, or similar). In some aspects, the processor 1012 can query the user via the user interface (UI) of the UT 1002 (not depicted) to obtain user profiles (such as location information for establishing a home GEO) or to identify data for the UT 1002 (such as UT 1002). Phone number, serial number, MSI, IMSI or similar). In addition, the user profile 1020 and/or information obtained from the UI can indicate the ultra-micro capabilities of the UT 1002.

force. As described herein, the foregoing information can be forwarded to BS 1004 to produce a customized SDL. In addition to the foregoing, UT 1002 can include an analysis module 1 〇 18 for determining signal statistics for the received wireless signals. Signal statistics can include signal strength and/or quality information. These statistics may also be provided to BS 1004 in conjunction with initial startup and/or acquisition routines (e.g., startup routines) implemented by starter module 1026 to configure UT 1002 for communication with BS 1002 and/or for The adjacent alien pico cells are blacklisted and stored in the blacklist module 1〇24. The statistical information can be sent to the bS 1004 via the routing module 1022, which can utilize a particular boot channel to communicate with the BS 1004 during the start/get routine. Upon completion of the start/get routine, υτ 1〇〇2 can utilize the custom SDL to obtain neighboring access points (1〇〇4) and attempt to register on the mobile network associated with the access point (1004). . The foregoing systems have been described in terms of interactions between several components, modules, and/or communication interfaces. It should be understood that such systems and components/modules/interfaces may include some of the components or subcomponents specified therein, the specified components or sub-components, and/or additional components. For example, a system can be connected to I35136.doc -46-200935932 to the ultra-micro cell 21 of the provisioning module 302, the Internet 24, the core network 518 and the UT 1002 or different combinations of these and other components. . Sub-components can also be implemented as components that communicate with other components rather than within the parent component. Additionally, it should be noted that one or more components can be combined into a single component that provides a collection of functionality. For example, the signal analysis module 〇8 can include: the routing module 518 or the routing module 518 can include a signal analysis module 〇8 to facilitate analyzing the received signal statistics and reporting the statistics via a single component to Ruanji ultra-micro community. The components can also interact with one or more other components not specifically described herein but known to those skilled in the art. In addition, as will be appreciated, the systems disclosed above and portions of the methods below may include components, sub-components, processes, components, methods, or mechanisms based on artificial intelligence or knowledge or rules (eg, support vector machines, neural networks) The road expert system, system, Bayesian inference network (Bayesian beHef (10) medical k), fuzzy logic, data fusion engine, classifier...) or consists of. These components and components other than those already described herein can be automated to perform &lt;some mechanisms or mechanisms to make portions of such systems and methods more adaptive and effective and intelligent. In view of the exemplary systems described above, reference will be made to the flowcharts of Figures u through 16 for a better understanding of the methods that can be implemented in accordance with the disclosed subject matter. Although , 'for the sake of simplicity of explanation, the method is shown and described as a series of blocks, but it should be understood and understood that the subject matter claimed is not limited by the order of the blocks, because some blocks may be different. The order of the order depicted and described herein occurs and/or occurs concurrently with other blocks. In addition, the blocks described are not required to implement the methods described below. In addition, it is understood that the method disclosed hereinafter and throughout the specification can be stored on an article to facilitate the transfer and transfer of electricity to the electricity (4). The term &quot;article&quot; is intended to encompass a computer program accessible from any computer readable device, device in conjunction with a carrier, or storage medium. The figure depicts a flow diagram of an example method 11 for providing centralized access management in a mobile communication environment. At 1102, Method 11 can obtain υτ specific data. The data may include identification information suitable for uniquely determining the UT. This asset can contain similar identifiers for deleting or deleting ESN or UT. This information can be obtained by direct wireless communication with the UT or via a network access point coupled to υτ. In the latter case, the data may be accompanied by an access request, which is utilized by υτ to access the mobile network. At 1104, method 1100 can utilize υτ specific data to determine the accessibility of υτ. In some instances, the data may be referenced relative to a pico-database containing information associated with the pico-use or pico-subscription program. The database may include a table listing the various Super Φ micro-cells with sub-micro capabilities and the authorized UT for a particular pico cell. By accessing the ultra-miniature database, it can be judged whether the SUT is a sub-micro-capable UT (for example, whether υτ specific information is included in the database), and the Hojima ultra-micro cell is associated with the identification and identification. Each of these homes is super-micro. The information about the home of GEO associated with Xiao Q. Alternatively or in addition to this, the operator's home location register associated with the UT may be accessed using the υτ specific data. In some of these cases, the ultra-micro capability of 17 D and the ultra-micro cell of the home and the GEO of such a cell can also be obtained from the home location register. Alternatively, the υτ specific data may be included in a registration request submitted by the UT and obtained directly or indirectly from the UT or from a serving cell associated with υτ. As an example, a user of the UT can submit ID information and/or sub-miniature capabilities (including references to the Home Micro/Home GE) to the UI of the UT. This information can then be received instead of, or in addition to accessing the ultra-micro database or the operator's home location register. At 1106, method 1100 can generate at least a portion of the base sUT access capability.

Customized SDL in UT! Ding does not have ultra-micro capabilities 'Beiwei SDL can (for example) include access information of the macro cell close to UT, and gUT has ultra-micro capability', which includes access information of macro cell and pico cell . In addition to the foregoing, the SDL can refer to the relative priority of several types of access points (e.g., pico, macro) based on the location of the UT. Therefore, for example, if the UT is currently in the home GE, the hyper-cell can be given priority to access the information, and the macro access information is given lower priority. This priority facilitates the possibility that the UT will access and maintain the connection to the picocell. In some of the aspects, the custom SDL can identify the particular home micro-cell of υτ such that the cell can be identified by the UT. The highest priority can be given to the home micro-cell. In other aspects, the alien picocell may also be identified and given the lowest priority, or it may be blacklisted in the custom SDL. Because itG J U l team king M, to heart eve refining signal. Once the classifies the SDL', it can be forwarded to the UT for selective access to various network access points based on at least the access point type. FIG. 12 depicts an example method for obtaining a 特定τ specific SDL. Awkward flow chart. Method 1200 can obtain υτ specific material from UT to generate a customization for UT at 1202' as described herein. At 1204, Method 12 〇〇 135136.doc -49- 200935932 asks the HLR for the user profile associated with the UT. At 1206, a determination can be made as to whether the UT is a sub-capacity 2UT based at least in part on the user profile. If the UT is not υτ with ultra-micro capabilities, then method 1200 can proceed to 1208 ' at 1208' to generate a macro SDL that establishes the priority of the macro access point and provide it to υτ at 1222. If the right UT is υ τ with ultra-micro capability, then method 12 进行 can proceed to 1210. At 1210, method 1200 may, depending on the situation (as indicated by the dashed lines), query the ultra-micro database with respect to the UT-related home micro-cell and related information. Alternatively, method 1200 can dynamically obtain the picocell and associated information from the UT dynamically from the network HLR or instead of accessing the ultra-micro database. In either case, method 1200 can be obtained at 1212! ; Ding Zhichao micro-book community and the origin of GEO. Additionally, at 214, method 1200 can obtain the current GEO of the UT, as well as neighboring cells within the GE. At 1216, method 12 can determine if the UT is in the home cell or in the home GE. If not, method I](9) can proceed to 1218, at 1218, a custom SDL can be generated in an exotic ultra-micro environment. In addition, the SDL can give low priority to the alien picocell, or classify the cells into the blacklist and give relatively high priority to the macrocell. On the other hand, if it is determined at reference numeral 1216 that it is within the home zone or the home GEO, the method 1200 can proceed to 1220, at 122 〇, the home SDL can be generated for the UT. The native fox can identify and give high priority to the home micro-cell associated with υτ. At 1222, the method can send a custom SDL (whether macro, foreign or native pico) to the heart diagram of Figure 13 depicting an example method for accessing a mobile network. At 1302, method 1300 can submit a request containing still The registration request of (1). The 135136.doc -50-200935932 ID may include any suitable information that may be used to distinguish the UT from other such 111. According to some aspects, the registration request may optionally include access to υτ, such as Whether the UT is configured to access the ID information (eg, SID/NID/cell m) of the picocell, the home microcell, and the channel utilized by the cell, and the current location of the UT or GE and currently serve the UT2Bs ID. At 13〇4, method 1300 obtains an SDL based on the UTf message submitted at reference numeral 1302. Thus, for example, customizing the SDL may include identifying the current home of the current GE within the UT. Information about microcells, alien picocells, and/or neighboring macrocells. In other aspects, 'SDL can provide relative priority for various access points based on access point type and channels utilized by various access points. . With respect to relative priority, 17 can select among various received signals to identify preferred access points. If the preferred access point is not located on a particular channel, the UT can exchange channels to facilitate an attempt to locate a better access point. However, if the access point cannot be found, then τ can select a non-preferred reference cell, or do not give a cell-specific preference (or, for example, a medium preference). However, the UT can periodically scan the received signal and the available channels to Continue to try to obtain a better cell. This periodic scan can continue until a better small-area is found, or until a new SDL is provided to the UT (eg, if υτ moves to a new .ge, if the network topology changes '11 Power outage and power up or the like, which does not include a preferred cell. Figure 14 illustrates a flow diagram of an example method for providing decentralized access management in a mobile communication environment. At 1402, as described herein, method 14注册 You can obtain a registration request with υτ specific data. At 14〇4, Method 14 〇〇 135136.doc -51 - 200935932 may request UT's ultra-miniature capability (for example, since υτ, from the ultra-miniature database, The HLR of the operator, etc.) At 1406, the method 1400 may obtain the neighboring cell data of the cell in the specific GEO in which the UT is located or the cell that is close to the serving cell of the UT. The neighbor cell data may be from the network component or the self. The UT obtains, which can analyze the signals transmitted by neighboring cells and provide statistics of such signals as an analysis of the network environment close to the UT. At 1408, method 1400 can generate an SDL with UT capabilities and neighbor cell data. As described herein, The SDL can be customized with UT capabilities to enable selective access point management of the UT. In addition, neighbor cell data may be utilized by the UT to search for a preferred cell (if present) indicated in the SDL. In at least one aspect, if the serving cell is a preferred access point (eg, a home micro-cell), neighbor cell data may be utilized to blacklist one or more non-preferred access points in the vicinity of the serving cell. . By using the data of neighboring cells, a relatively small cell blacklist can be maintained, thereby reducing the processing and memory requirements for analyzing and storing the customized SDL, respectively. Figure 15 depicts a flow diagram of an example method for utilizing a startup routine to couple to υτ and generate a custom SDL for the UT based on the accessibility of υτ. At 15〇2, method 1500 can establish a core network link with the core mobile network. At 1504, method 1500 obtains an activation parameter for the initial acquisition of the adjacent 1; At 1506, method 1500 obtains a honeycomb parameter for cellular communication with a remote device. At 1508 'Method 15G() can be entered - to initiate the supply mode. At 1510, method 1500 can establish a link with an adjacent υτ. The link can optionally utilize very low transmission power, enabling communication with only nearby υτ. At 1512, method 1500 can receive statistics from the still data and surrounding network 135136.doc • 52. 200935932 Road Statistics at 1514, method 1500 can generate a custom SDL for the UT based on the material and network statistics. At 1516, method 15 〇〇 * υ τ is added to the CSG to establish the UT as authorized ^^. At 1518, Method 15 can provide a custom SDL to the UT. At 1520, method 15 can obtain updated network topology parameters from the network. The updated network topology parameters may include additional and/or modified υτ data within the surrounding GEO. At 522, method 1500 can modify the customized SDL provided to υτ based on the updated network topology parameters. The 1524&apos; method 1500 can provide the updated SDL to 1 to facilitate access point selection in the updated network environment. 16 illustrates a flow diagram of an example method for facilitating generation of a customized SDL based on UT specific data and 11 specific access capabilities. At 16 〇 2, method 1600 can obtain υΤ data from memory or from user input. At 16〇4, method 1600 can obtain a boot SDL. The boot sdl can be obtained, for example, from a mobile network by utilizing a GA BS associated with the network (e.g., a &apos;bigset BS). At 1606' method 1600, an activation start and/or acquisition mode on the activation channel provided by the initiating SDL is entered. At 1608, method 1600 can be interfaced to the initiating cell on the activation channel (e.g., 'identified by the initiating NID). The UT data can be provided to the initiating cell at 1610' method 1600. At 1612, method 1600 can analyze the received wireless signals from the surrounding network to exclude signals obtained from the initiating cell as appropriate. At 1 614, method 1600 can extract signal statistics from the received wireless signals, such as signal strength, signal quality, and the like. The 1616' method 1600 can provide the captured signal statistics to the initiating cell. At 1618, method 1600 can obtain a customized SDL based on the UT data and the signal statistics retrieved. At 1620, method 1600 can utilize 135136.doc • 53- 200935932 to customize SDL search and obtain a preferred network cell. At 1622, method 1600 can register with the preferred cell on the pico channel specified in the custom SDL. At 1624, method 1600 can obtain an updated SDL based on changes in network topology information. FIG. 17 and FIG. 18 respectively depict an example of centralized access point management for facilitating and utilizing access points to a mobile network as described herein. A block diagram of systems 1700, 1800. For example, systems 1700, 1 800 can reside at least partially within a wireless communication network and/or such as a node, a base station, an access point, a user terminal, a personal computer coupled to a mobile interface card, or the like In the transmitter. It will be appreciated that the system 1700, 1800 is represented as including functional blocks that may be functional blocks representing functions implemented by a processor, software, or combination thereof (e.g., firmware). System 1700 can include a first component 1702 for obtaining information about the UT. This information may include information that distinguishes the UT from other such UTs and identifies operators that provide action services for ϋτ. The second component 17〇4 can use this information to obtain the access capability of the UT. If the UT is identified as a UT with ultra-micro capabilities, then these capabilities are available from the ultra-micro library. In addition, or other capabilities may be obtained from the HLR of the operator maintained at the operator's core network. In other aspects of the invention, such capabilities may be obtained using data relating to the UT, or derived directly or indirectly from the material (eg, wherein the data or the hash of the material produces such capabilities) Further comprising a third component 17〇6 for generating a customized SDL. The custom sdl may list mobile network access points that may be utilized by the UT based at least in part on UT capabilities. In some aspects, may be located according to υτ Among them, the current GE0 transitions 135136.doc • 54- 200935932: way access points. In addition, the access order order priority or superior can be given: 'to facilitate the selectivity of one or more of these access points Access and/or acquisition. In at least - in this aspect, the order/priority may be based on the ability of υτ" so that 'for example, in the case of a device with ultra-micro capabilities, the UT may give priority to super A micro access point or a home access point associated with υτ. Given the UM's lack of femto capabilities, priority can be given to another type of access point, such as a GA macro access point.

The system deletion may include a component-component 18G2 that submits the registration request to the access point of the mobile network, wherein the registration request includes the id of the requesting device. Moreover, system 1800 can include a second component 18〇4 for obtaining a customized SDL based at least in part on (1) of the requesting device. The hunger can, for example, identify and give a high priority to a particular access point associated with the requesting device. In addition to the foregoing, system 1800 can include third component 18〇6 for utilizing a customized SDL to search for and/or obtain an access point identified in the SDL. This component 18〇6 can be searched using the access point preferences specified in the SDL. Therefore, cells with higher priority than other cells can be selected. In the event that the preferred cell is not recognized by component 1806, component 1806 may select a sub-optimal or non-preferred cell for network access. "However, in this case, the component may periodically initiate a search to identify the comparison. Good access point. If a preferred access point is identified, system 1800 can connect to the access point and request an action service from it. In addition, component 1806 can reduce the threshold (below the threshold, system 1 800 will search for other cells instead of preferred access points) to identify system 1 800 in the case where a preferred access point is identified. The possibility of coupling with a preferred access point is maintained. 19 and 20 depict block diagrams of example systems 19A, 2B, respectively, for facilitating and utilizing centralized access point management for access points to the mobile network 135l36.doc • 55·200935932, as described herein. In the case of &lt;columns, the systems 1900, 2000 may reside at least partially within the wireless communication network and/or individuals such as nodes, base stations, access points, user terminals, and mobile interface cards. Inside the transmitter of a computer or the like. It will be appreciated that the systems 1900, 2A are represented as including functional blocks, which may be functional blocks representing functions implemented by a processor, software, or combination thereof (e.g., firmware). System 1900 includes a first component 1902 for initiating a startup mode based on a startup parameter. These parameters may specify the channel for wireless communication associated with the startup mode, the activation ID for identifying the system 1900, and the transmission power for wireless communication during the startup mode. Additionally, system 19A can include a second component 19〇4 for obtaining UT access capabilities via wireless data exchange. In addition, system 1900 can include a third component 1906 for generating a customized SDL based on access capabilities. The custom SDL may indicate that one or more types of access points are based on the preference of the ττ capability. In some aspects, the associated home directory may be identified and listed as the highest priority access point in the SDL to facilitate the search and acquisition of the increased likelihood of the home access point. Depending on the particular aspect, the SDL may also blacklist such nearby access points based on the relative strength of the access points determined to be near the preferred access point. Thus, the SDL can facilitate the UT to avoid the preferred access point and bias the likelihood of other such access points being reduced. System 2000 includes a first component 2〇〇2 for obtaining a startup sdL. The launch SDL can be obtained, for example, via a wireless provisioning of components from the mobile network. In addition, system 2000 can include a second component 2004 for coupling to a cell via a boot channel 135136.doc - 56 - 200935932 specified in the launch SDL. In addition, the system, node, and/or cell ID of the cell can be self-initiated to facilitate identification of the cell. In addition, system 2000 can include a third component 2006 for obtaining and utilizing a customized SDL to select an access point for the mobile network. The custom SDL can indicate the typical radio channel utilized by the access point to facilitate searching and access. In addition, custom • SDL can identify these cells by cell ID or similar identifier, therefore,

• The system 200 can end the communication with the cell and initiate a search for the cell specified in the customized SDL' and attempt to obtain the mobile service from the designated cell. Custom SdL ® viewing conditions are based on system 2000 resident in one or more of the surrounding ge〇. As system 2000 moves from one GEO to another GEO, the SDL can be referenced to determine which cells should be utilized to access the network. A generic cell, such as a macro network cell, may alternatively be utilized if the designated cell is not identifiable. In this case, system 2000 can continue to search for cells designated by the SDL while being coupled to the network via the universal cell. The examples described above include aspects of the claimed subject matter. Of course, not every φ may describe every conceivable combination of components or methods for the purpose of describing the claimed subject matter, but those skilled in the art will recognize that many other combinations and permutations of the disclosed subject matter are possible. Therefore, the subject matter disclosed is to include all of the substitutions, modifications and changes in the spirit and scope of the patents (4). In addition, the terms &quot;include&quot; or, to the extent that they are used in the scope of the embodiments or claims, are intended to be similar to the terms used in the application. The manner in which the scope is explained is inclusive. BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 illustrates a block diagram of an example wireless communication environment in accordance with aspects of the present invention. Figure 2 illustrates a block diagram of a sample wireless network including a picocell (BS) according to other aspects. 3 depicts a block diagram of a sample system for provisioning a system decision list (SDL) for sub-micro cell acquisition to a user terminal (υτ). Figure 4 illustrates a block diagram of an example system that facilitates UT2-based selective 83 acquisition. Figure 5 depicts a block diagram of a sample system that utilizes decentralized access point management for the UT. 6 illustrates a block diagram of an example system that utilizes a boot configuration to provision a UT in accordance with some aspects disclosed herein. Figure 7 depicts a block diagram of an example environment and macro access environment in which various hyper-cell network networks are interspersed. Figure 8 depicts a block diagram of an example SKI that facilitates GE&apos;s specific access point management in accordance with some aspects. Figure 9 illustrates a block diagram of an example system including an ultra-micro BS communicatively coupled to one or more υτ, in accordance with some aspects. 10 depicts a block diagram of a sample system including a subminiature capable UT communicatively coupled to one or more BSs. Figure 11 illustrates a flow diagram of an example method for providing a set of access point management in a mobile environment. Figure 12 illustrates a flow diagram of an example method for obtaining υτ specific information to produce a customized SDL, in accordance with some aspects. I35136.doc -58- 200935932 Figure 13 depicts a flow diagram of a sample method for accessing a mobile network using a custom SDL. Figure 14 depicts a flow diagram of an example method for providing decentralized access point management in a mobile environment. Figure 15 illustrates a flow diagram of an example method for interfacing with a femtocell to generate an SDL for a particular caddy. Figure 16 illustrates a flow diagram of a sample method for selecting a preferred access point to a mobile network using a custom SDL. ❹

The figure depicts a block diagram of an example system that provides centralized access point management for mobile network connections. Figure 18 illustrates a block diagram of an example system for utilizing a custom sdl to access a mobile network BS. Figure 19 illustrates a block diagram of an example system that provides decentralized access point management for a mobile network connection. Figure 20 depicts a block diagram of an example system that facilitates decentralized access point management of a mobile network. [Major component symbol description] 100 Wireless communication system 102a Macro cell 102b Macro cell 102c Macro cell 102d Macro cell 102e Macro cell 102f Macro cell 135136.doc -59- 200935932

102g macro cell 104a access point (AP) 104b access point (AP) 104c access point (AP) 104d access point (AP) 104e access point (AP) 104f access point (AP) l〇4g Access point (AP) 106a User terminal (UT) 106b User terminal (UT) 106c User terminal (UT) 106d User terminal (UT) 106e User terminal (UT) 106f User terminal (UT) l〇6g User Terminal (UT) 106h User Terminal (UT) 106i User Terminal (UT) 106j User Terminal (UT) 106k User Terminal (UT) 200 Communication System 210 Micro Base Station (BS) 220 UT 230 User Home, Business District, Indoor/Outdoor Facilities 240 Internet 135136.doc -60- 200935932 250 Mobile Operator Core Network 300 System 302 Supply Module 304 Communication Processor 306 UE - Ultra Micro Data Profiler - 308 System Decision List (SDL) Module - 400 System 402 Supply Module 404 404A UT 404B UT 406A Macro Access Point 406B Ultra Micro Access Point / Ultra Micro Cell 408 Communication Processor 412 UE - Community information 414 Network Micro-Micro Library 416 User Profile 418 Data Interface 420 Mobile Core Network • 422 SDL Module 500 System 502 Ultra-Micro Cell 504 Ultra-Micro UT 506 Interface Application 508 Signal Analysis Module 135136.doc -61 - 200935932 510 Report Module 512 SDL Supply Module 518 Macro Core Network/Action Core Network/Guide Module 520 Wireless Supply Function (OTAF) 522 Macro BS/Macro and Micro-PS/ Nearby Cell - 600 System - 602 Supply Module 604 Ultra Micro UT 606 Startup Configuration Module 608 Ultra Micro SDL Configuration Module 610 Data Processor 700 Integrated Microminiature - Macro Action Environment 702 Macro BS / Macro Network / Service BS 704 UT 706A BS/native micro-cell ❹ 706B BS/native micro-cell 708A Geographical area (GEO) / native GEO 708B GEO - 708C GEO • 708D GEO/local GEO 802 access point 804 UT 806 Custom SDL 900 135136.doc -62- 200935932 902 BS 904 UT 906 Receive Antenna 908 Transmit Antenna 910 Receiver ' 912 Demodulation Transformer 914 Processor 916 Memory © 918 Supply Module 920 Signaling Interface 922 Data Interface 924 Closed User Group (CSG) 926 Startup Module 928 Modulator 930 Transmitter 1000 Reference System 1002 UT 1004 BS/Base Station/Remote Device 1006 Antenna 1008 Receiver 1010 Solution Modulator 1012 Processor 1014 Memory 1016 Reselection Module 135136.doc -63- 200935932 1018 1020 1022 1024 1026 1028 1030 1700 ® 1702 1704 1706 1800 1802 1804 1806 1900 1902 1904 1906 2000 Analysis Module Command/User Profile Routing Module entry blacklist module startup module modulator transmitter system is used to obtain the first component of the UT data for obtaining the access capability of the UT. The second component is used to generate the third component system of the customized SDL. A first means for submitting the registration request to an access point of the mobile network for obtaining a second component of the customized SDL based at least in part on the ID of the requesting device for utilizing the customized SDL to search for and/or obtain identification in the SDL a third component system of the access point for the first component based on the startup parameter initiation startup mode for obtaining UT storage via wireless data exchange A second component of capability for generating a custom component SDL based on access capabilities 135136.doc -64 - 200935932 2002 2004 2006 10 The first component for obtaining the boot SDL is used to initiate the channel via the boot SDL And the second component connected to the cell is used to obtain and utilize the customized SDL to select the third component of the mobile network access point 135136.doc -65-

Claims (1)

200935932 X. Patent Application Range: 1. A method for facilitating remote access to a mobile network, comprising: obtaining a user terminal (υτ) specific information; determining the access of the UT by using the UT specific information Capabilities; and based on the access capabilities of the UT, a custom system decision list (SDL) for selecting between disparate types of access points is generated. 2. The method of claim 1, further comprising identifying, within the customized sdl, identification data for one of the UT's home microcells. β 3 · As requested by the method, the step-by-step includes specifying the relative priority of the individual access points based, at least in part, on the type of access point. 4. The method of claim 1, further comprising: defining or obtaining one of the UT's home micro-cells located in one of the geographic regions of the home (GEO); and providing in the mandatory SDL when the UT is in the home GE Multiple priority levels for different access point priorities are established within and outside of the home GE0. 5. The method of claim 1, further comprising: in the custom sdl: when the υτ is located in a ge〇 containing the home micro-cell, the cell will be a cell or a channel Established as preferred; or when the UT is not within the GE〇 containing the home micro-cell, it is preferred to establish a cell ID or channel of the macro cell. 6. If requested by the requester, obtaining the 特定τ specific information includes receiving the UT's -ID, and using the at least one of the following to operate the Lu Hai information: 135136.doc 200935932 Network Operator a database; or a centralized core network database. The method of i-to-item 6 further includes accessing the centralized core network repository based on a user authorized to use the == cell or according to the home ultra-microware associated with the UT. 8. The method of claim 1, wherein generating the customized SDL further comprises: utilizing an access point coupled to the υτ to obtain the υτ SDL; &lt; using the UT specific data to identify a The super-community of the home; the obtained piece of the updated network information of the current GE0 of the UT; and the use of the updated network information and the information about the home micro-cell, dynamically modifying the current SDL And the custom SDL is generated. 9. The method of step π of item 1 includes the use of a macro or a pico access point to signal the custom SDL to the UT via a wireless (ΟΤΑ) signal. ^ 10. The method of claim 1, further comprising the step of including, by the custom SDL, a parameter that redirects the UT to a non-subminiature carrier if the UT is a non-subminiature device. U. The method of claim 1, further comprising including a set of neighboring picocell IDs with the custom SDL to facilitate the υτ in a multi-carrier environment or a UT with ultra-micro capabilities Search for neighboring picocells on multiple carriers. 12. An apparatus for facilitating remote access to a mobile network, comprising: 135136.doc 200935932 a processor that passes through a base station (BS) of the υτ A road or a wireless link with the 111 obtains one. a data profiler that uses the 特定τ specific information to determine the access capability of the υτ; and an SDL module that generates an access point for the disparate type based on the access capabilities of the sputum Customize 51^ between the choices. 13. The device of claim 12, wherein the SDL module configures the customization to include information about a home microcell associated with the UT. 14. The device of claim 13, further comprising a data interface coupled to the i-operator's core network to obtain the home micro-cell material, or coupled to the Internet for self-coupling This information is obtained from the ultra-micro cell of the υτ. 15. The device of claim 12, wherein the hungry module assigns a relative priority to the access points of the disparate types based at least in part on the type of access point. ❿16. The device of claim 12, further comprising: a database for maintaining user data for the UT, identifying one or more of the home micro-cells, and, as the case may be, The channel used by the micro cell is 0 'I7. The device of claim 16, wherein the user profile is used to establish a home GEO for the UT. 18. The apparatus of claim 12, wherein the SDL module: defines the υτ--the home micro-cell is located therein for the one of the υτ, and the 135136.doc 200935932 configures the customized SDL' The UT is in the home geo context to establish a high relative priority for the femto cell. 1 9. The device of claim 12, wherein the SDL module includes data identifying one or more home micro-cells within the customized SDL. The identification data is obtained from: a network database, It includes ultra-micro ID data for an ultra-micro cell network; a mobile operator's home location register containing the ultra-micro cell ID data associated with a pico subscription; or a originating at the UT Wireless message. 20. The apparatus of claim 12, wherein the SDL module configures the customization to establish a macrocell if the υτ is not in a local GE or the υτ is a non-subminiature device A high relative priority. 21. The device of claim 12 wherein the SDL module includes a wireless service provisioning function (〇TAF) module configured to generate the customized SDL. 22_ such as "Monthly Item 12 device" further includes a startup configuration module, the startup configuration module is generated - for starting the SDL by the initial micro-supply of a home micro-cell, the startup SDL Include a boot cell (1) or a boot channel. 23. A device for remoting remote access of a mobile network, comprising: means for obtaining a UT specific information; A component of the access capability of the UT; and 135136.doc 200935932 for generating, based on the access capabilities of the υτ, a component of a custom SDL for selecting between disparate types of access points. A processor configured to facilitate remote access to a mobile network, comprising: a first module configured to obtain a UT specific information; • a second module grouped State to determine the access capability of the .UT using the UT specific information; and a third module configured to access the disparity type based on the access capabilities of the UT Custom SDL to choose between points. 25. A computer program The computer includes: a computer readable medium comprising: a first set of code for causing a computer to obtain a UT specific information; and a second set of code for causing the computer to determine using the UT specific information The access capability of the UT; and a third set of code for causing the computer to generate a selection between disparate types of access points based on the access capabilities of the UT - custom SDL 26. A method for selecting an access point of a one-to-one mobile network, comprising: submitting a network registration request including a UT ID to a cell of the mobile network; obtaining a target for the UT ID-configured custom SDL, the custom SDL base 135136.doc 200935932 establishes a preferred type of access point in one of the characteristics of the υτ; and is not a better cell in the 〇丨 area Or, in the case of a non-preferred cell, use the SDL to search for a neighboring cell or channel. The method of claim 26 is to use the customized SDL to search for a neighboring cell to enter a packet 3 to match one of the cells of the cell. One node ID in s〇L to determine the cell Preferably, the method of Month 26 further comprises identifying one of the cells and comparing the GEO with the customized SDL to determine whether the cell is preferred or not. The method of claim 28, identifying the GE further comprises analyzing a signal transmitted by the cell or determining a location of the UT. 30. The method of claim 28, further comprising determining, based on the comparison, whether the GEO of the cell is a home ge associated with the υτ. 31. The method of claim 26, further comprising coupling to the non-preferred cell if the preferred cell is not identified within a threshold time. 32. The method of claim 31, further comprising periodically searching for the preferred cell while being coupled to the non-preferred cell. 33. The method of claim 26, wherein obtaining the customized SDL further comprises submitting information identifying a home GE0 or a home micro-cell to the mobile network. 34. The method of claim 26, wherein the characteristic of the UT is an access type characteristic. 35. The method of claim 26, further comprising obtaining, from the cell of the mobile network, an updated SDL based on a network topology change. 135136.doc -6- 200935932 36. The method of claim 26, further comprising utilizing an Action User Identifier (MSI), an International Mobile Subscriber Identity (IMSI), an Electronic Serial Number (ESN), or a Part Number (DN) or One of the combinations is the UT ID. 37. A UT configured to select an access point of a one-to-one mobile network, the method comprising: a communications processor that submits a network registration request including a UT ID to the mobile network a cell; a receiver that obtains a customized SDL configured for the UT ID, the custom SDL establishing a preferred type of access point based on a characteristic of the UT; and a base station reselection mode A group that uses the customized SDL to search for neighboring cells if the cell is not a preferred cell or a non-preferred cell. 38. The UT of claim 37, wherein the base station reselection module matches one of the node IDs of the cell with one of the node IDs of the customized SDL to determine whether the cell is preferred or not. 39. The UT of claim 37, wherein the base station reselection module identifies one of the cells GEO and compares the GEO to the customized SDL to determine whether the cell is preferred or not. 40. The UT of claim 39, further comprising a signal analysis module that identifies the GEO by analyzing a signal transmitted by the cell. 41. The UT of claim 39, wherein the base station reselection module determines whether the GEO of the cell is a home associated with the UT based on the comparison 135136.doc 200935932 GE〇〇42. 37iUT, wherein the base station reselection module is coupled to the UT of the non-better cell 0 θ claim 42 if the preferred cell is not identified within a threshold time, wherein the base station reselects the module The preferred cell is periodically searched while being coupled to the non-preferred cell. 44. The request 37iUT, wherein the communication processor submits data identifying a home or a home micro-cell to the mobile network. The monthly length of the 7 UT, where the characteristic of the υτ is an ultra-micro capability or ultra-micro subscription information. 46. The method of claim 37, wherein the receiver obtains from the cell of the mobile network - an updated SDL based on a network topology change. 47. The υτ of claim 37, wherein the υΤ ID comprises an MSI, an msi, an ESN, or one of the DNs or a combination thereof. 48. - configured to select a pair of poems - the access point of the mobile network • S 'includes: for submitting a network registration request containing a UT m to a cell of the mobile network Means for obtaining - custom muscles configured for the UT ID, the custom SDL being established based on one of the characteristics of the UT - a preferred type of access point; and for not being used in the cell A component of the neighboring cell is searched using the customized SDL in the case of a preferred cell or a non-preferred cell. 49. A process configured to select a access point in a mobile network 135136.doc 200935932, comprising: a UT ID network registration request to provide a first module, which includes one Delivered to a cell of the mobile network; a second module that obtains a customized SDL configured for the UT m, the custom SDL establishing a preferred type of access point based on the characteristics of the UT And a third module, which uses the customized SDL to search for neighboring cells if the cell is not a preferred cell or a non-preferred cell. A computer program product, comprising: a computer readable medium, comprising: a first set of code for causing a computer to submit a network registration request including a UT to one of the mobile networks a second set of code for causing the computer to obtain a customized SDL configured for the υτ ID, the customized SDL establishing a preferred type of access point based on a characteristic of the UT; The two sets of code are used to enable the computer to search for neighboring cells by using the customized SDL if the cell is not a preferred cell or a non-preferred cell. 135136.doc